Analyzing the integral
I’m working through the integral ∫ex3dx. Recognizing the absence of an elementary function, I explore substitutions but find them unhelpful, suggesting the use of the incomplete gamma function instead.
Mapping out integrals
I’m piecing together if the integral can be represented through special functions like the incomplete gamma or exponential integral function, considering substitutions and their forms but finding them complex.
Shifting my approach
I’m working through defining a function with ettα and considering the incomplete gamma function with a negative argument or exponential integral function, leading to a power series representation.
Communicating the solution
I’m explaining that the integral of ex3 lacks an elementary form, so it’s expressed through a series expansion or a special function like the incomplete gamma function.
Transforming integrals
Crafting the integral with substitutions and the incomplete gamma function is intricate, especially with e^t. This opens up new possibilities for further exploration.
Unraveling functions
I’m digging into the incomplete gamma function with a negative argument, defining Γ(s,−x). This approach seems promising for solving ∫ex3dx.
Adjusting my focus
I’m examining the integral ∫tmetdt, reworking it with t=−u and dt=−du. This involves managing the sign carefully throughout the process.
Understanding the integral
Ok, let me see. The integral ∫tmetdt simplifies to (−1)m∫ume−udu, which aligns with the incomplete gamma function Γ(m+1,u).
Revisiting the integral
I’m reworking ∫tmetdt to ∫t−2/3etdt using the incomplete gamma function. The results are trickier than expected.
Breaking down the integral
OK, let’s see. The integral ∫ex3dx is tricky without elementary functions. The best approach is a power series, ensuring accuracy over specific intervals.
Thought about integral of ex3 for 33 seconds